1. Introduction to process control, Control objectives and benefits
2. Process dynamics: mathematical modeling (procedure, linearization, examples), simulation and analysis (Laplace transform, Block diagrams, Frequency response, numerical methods and computer software). dynamic behavior of process systems (first order systems, second order systems, series structure, parallel structure, Recycle structure, staged process).
3. Feedback Control: Feedback Loop (Introduction, Instrument elements, Controlled and manipulated variables, control performance measure), Classical Proportional-Integral-Derivative (PID) control algorithm, PID tuning, Stability analysis.
4. Introduction to advanced control techniques - feedforward control, cascade control, ratio control, adaptive control, inferential control, selective control.
Text book:
(1) Process Systems Analysis and Control 3rd edition
Donald R. Coughanowr, Steven E. Blanc
(2) Chemical Process Control
George Stephanopoulos
2. Process dynamics: mathematical modeling (procedure, linearization, examples), simulation and analysis (Laplace transform, Block diagrams, Frequency response, numerical methods and computer software). dynamic behavior of process systems (first order systems, second order systems, series structure, parallel structure, Recycle structure, staged process).
3. Feedback Control: Feedback Loop (Introduction, Instrument elements, Controlled and manipulated variables, control performance measure), Classical Proportional-Integral-Derivative (PID) control algorithm, PID tuning, Stability analysis.
4. Introduction to advanced control techniques - feedforward control, cascade control, ratio control, adaptive control, inferential control, selective control.
Text book:
(1) Process Systems Analysis and Control 3rd edition
Donald R. Coughanowr, Steven E. Blanc
(2) Chemical Process Control
George Stephanopoulos
- Teacher: Kamil M.Wagiallah chemical
1. Basic concepts in kinetics of homogenous reactions
2. Determination of reaction rate expression for single and multiple reactions
3. Kinetic models& mechanisms
4. Ideal reactor: batch, semi-batch, and flow types
5. Solution of the elementary design equation based on plug flow for isothermal case
6. Continuous stirred tank reactor (CSTR); design equation based on the assumption of perfect mixing
7. Comparisons of reactor volume in batch, CSTR, and plug flow reactors
8. Multiple reactions and product distribution
9. Non-isothermal reactors
10. Conditions for stability
11. Non-ideal reactors
2. Determination of reaction rate expression for single and multiple reactions
3. Kinetic models& mechanisms
4. Ideal reactor: batch, semi-batch, and flow types
5. Solution of the elementary design equation based on plug flow for isothermal case
6. Continuous stirred tank reactor (CSTR); design equation based on the assumption of perfect mixing
7. Comparisons of reactor volume in batch, CSTR, and plug flow reactors
8. Multiple reactions and product distribution
9. Non-isothermal reactors
10. Conditions for stability
11. Non-ideal reactors
- Teacher: Dr. Mustafa Abbas
Course objectives
1. Enhancement of practical experience.
2. Improve report writing skills.
3. Increase awareness of process safety.
4. Develop effective team working and communication skills.
Course outcomes
1. An ability to design and conduct experiments, as well as to analyze and interpret results.
2. An ability to communicate effectively.
3. An ability to work in a team.
1. Enhancement of practical experience.
2. Improve report writing skills.
3. Increase awareness of process safety.
4. Develop effective team working and communication skills.
Course outcomes
1. An ability to design and conduct experiments, as well as to analyze and interpret results.
2. An ability to communicate effectively.
3. An ability to work in a team.
- Teacher: Asila A. M. Osman chemical